Discover how CD1b's A' and F' pockets enable lipid antigen presentation to T cells, revealing new pathways for vaccine development and therapeutic interventions.
Discover how proteomic and phosphoproteomic analysis revealed the secrets behind accelerating growth in Haematococcus pluvialis, a microalgae with immense industrial potential.
Discover how mechanical force fundamentally alters disulfide bond chemistry through single-molecule techniques, revealing hidden mechanisms in protein structure and function.
Discover how protein engineering is unlocking the potential of cellobiose dehydrogenase (CDH) in baker's yeast, paving the way for sustainable biotechnology applications.
Explore how scientists are reprogramming bacteria to become precision drug delivery systems capable of revolutionizing disease treatment from cancer to genetic disorders.
Discover how scientists are using enzyme cascades to convert low-cost triglycerides into valuable α-olefins without hazardous hydrogen peroxide additives.
Explore the fascinating molecular mechanisms of exocytosis, the cellular delivery system that enables everything from neural communication to hormone regulation.
Explore how MADS-box genes orchestrate floral development and stress resistance in Brassica rapa, the species behind Chinese cabbage and bok choy.
Discover how a nonphotosynthetic Chromatiaceae bacterium challenges textbook biology by fixing CO₂ in biocathodes, enabling sustainable energy solutions.
Explore how scientists track transgenes in genetic engineering, from Brainbow neuroscience to agricultural applications.